Mercury volatilisation and phytoextraction from base-metal mine tailings
Experiments were carried out in plant growth chambers and in the field to investigate plant-mercury accumulation and volatilisation in the presence of thiosulphate (S 2O 3)-containing solutions. Brassica juncea (Indian mustard) plants grown in Hg-contaminated Tui mine tailings (New Zealand) were enc...
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Published in | Environmental pollution (1987) Vol. 136; no. 2; pp. 341 - 352 |
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Main Authors | , , , |
Format | Journal Article |
Language | English |
Published |
Oxford
Elsevier Ltd
01.07.2005
Elsevier |
Subjects | |
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Abstract | Experiments were carried out in plant growth chambers and in the field to investigate plant-mercury accumulation and volatilisation in the presence of thiosulphate (S
2O
3)-containing solutions.
Brassica juncea (Indian mustard) plants grown in Hg-contaminated Tui mine tailings (New Zealand) were enclosed in gastight volatilisation chambers to investigate the effect of ammonium thiosulphate ([NH
4]
2S
2O
3) on the plant-Hg volatilisation process. Application of (NH
4)
2S
2O
3 to substrates increased up to 6 times the Hg concentration in shoots and roots of
B. juncea relative to controls. Volatilisation rates were significantly higher in plants irrigated only with water (control) when compared to plants treated with (NH
4)
2S
2O
3. Volatilisation from barren pots (without plants) indicated that Hg in tailings is subject to biological and photochemical reactions. Addition of sodium thiosulphate (Na
2S
2O
3) at 5 g/kg of substrate to
B. juncea plants grown at the Tui mine site confirmed the plant growth chambers studies showing the effectiveness of thio-solutions at enhancing shoot Hg concentrations. Mercury extraction from the field plots yielded a maximum value of 25 g/ha. Mass balance studies revealed that volatilisation is a dominant pathway for Hg removal from the Tui mine site. A preliminary assessment of the risks of volatilisation indicated that enhanced Hg emissions by plants would not harm the local population and the regional environment.
Mass balance studies indicated that volatilisation was a dominant pathway for mercury removal. |
---|---|
AbstractList | Experiments were carried out in plant growth chambers and in the field to investigate plant-mercury accumulation and volatilisation in the presence of thiosulphate (S2O3)-containing solutions. Brassica juncea (Indian mustard) plants grown in Hg-contaminated Tui mine tailings (New Zealand) were enclosed in gastight volatilisation chambers to investigate the effect of ammonium thiosulphate ([NH4]2 S2O3) on the plant-Hg volatilisation process. Application of (NH4)2 S2O3 to substrates increased up to 6 times the Hg concentration in shoots and roots of B. juncea relative to controls. Volatilisation rates were significantly higher in plants irrigated only with water (control) when compared to plants treated with (NH4)2 S2O3. Volatilisation from barren pots (without plants) indicated that Hg in tailings is subject to biological and photochemical reactions. Addition of sodium thiosulphate (Na2S2O3) at 5 g/kg of substrate to B. juncea plants grown at the Tui mine site confirmed the plant growth chambers studies showing the effectiveness of thio-solutions at enhancing shoot Hg concentrations. Mercury extraction from the field plots yielded a maximum value of 25 g/ha. Mass balance studies revealed that volatilisation is a dominant pathway for Hg removal from the Tui mine site. A preliminary assessment of the risks of volatilisation indicated that enhanced Hg emissions by plants would not harm the local population and the regional environment. Experiments were carried out in plant growth chambers and in the field to investigate plant-mercury accumulation and volatilisation in the presence of thiosulphate (S2O3)-containing solutions. Brassica juncea (Indian mustard) plants grown in Hg-contaminated Tui mine tailings (New Zealand) were enclosed in gastight volatilisation chambers to investigate the effect of ammonium thiosulphate ([NH4]2 S2O3) on the plant-Hg volatilisation process. Application of (NH4)2 S2O3 to substrates increased up to 6 times the Hg concentration in shoots and roots of B. juncea relative to controls. Volatilisation rates were significantly higher in plants irrigated only with water (control) when compared to plants treated with (NH4)2 S2O3. Volatilisation from barren pots (without plants) indicated that Hg in tailings is subject to biological and photochemical reactions. Addition of sodium thiosulphate (Na2S2O3) at 5 g/kg of substrate to B. juncea plants grown at the Tui mine site confirmed the plant growth chambers studies showing the effectiveness of thio-solutions at enhancing shoot Hg concentrations. Mercury extraction from the field plots yielded a maximum value of 25 g/ha. Mass balance studies revealed that volatilisation is a dominant pathway for Hg removal from the Tui mine site. A preliminary assessment of the risks of volatilisation indicated that enhanced Hg emissions by plants would not harm the local population and the regional environment.Experiments were carried out in plant growth chambers and in the field to investigate plant-mercury accumulation and volatilisation in the presence of thiosulphate (S2O3)-containing solutions. Brassica juncea (Indian mustard) plants grown in Hg-contaminated Tui mine tailings (New Zealand) were enclosed in gastight volatilisation chambers to investigate the effect of ammonium thiosulphate ([NH4]2 S2O3) on the plant-Hg volatilisation process. Application of (NH4)2 S2O3 to substrates increased up to 6 times the Hg concentration in shoots and roots of B. juncea relative to controls. Volatilisation rates were significantly higher in plants irrigated only with water (control) when compared to plants treated with (NH4)2 S2O3. Volatilisation from barren pots (without plants) indicated that Hg in tailings is subject to biological and photochemical reactions. Addition of sodium thiosulphate (Na2S2O3) at 5 g/kg of substrate to B. juncea plants grown at the Tui mine site confirmed the plant growth chambers studies showing the effectiveness of thio-solutions at enhancing shoot Hg concentrations. Mercury extraction from the field plots yielded a maximum value of 25 g/ha. Mass balance studies revealed that volatilisation is a dominant pathway for Hg removal from the Tui mine site. A preliminary assessment of the risks of volatilisation indicated that enhanced Hg emissions by plants would not harm the local population and the regional environment. Experiments were carried out in plant growth chambers and in the field to investigate plant-mercury accumulation and volatilisation in the presence of thiosulphate (S sub(2)O sub(3))-containing solutions. Brassica juncea (Indian mustard) plants grown in Hg-contaminated Tui mine tailings (New Zealand) were enclosed in gastight volatilisation chambers to investigate the effect of ammonium thiosulphate ([NH sub(4)] sub(2)S sub(2)O sub(3)) on the plant-Hg volatilisation process. Application of (NH sub(4)) sub(2)S sub(2)O sub(3) to substrates increased up to 6 times the Hg concentration in shoots and roots of B. juncea relative to controls. Volatilisation rates were significantly higher in plants irrigated only with water (control) when compared to plants treated with (NH sub(4)) sub(2)S sub(2)O sub(3). Volatilisation from barren pots (without plants) indicated that Hg in tailings is subject to biological and photochemical reactions. Addition of sodium thiosulphate (Na sub(2)S sub(2)O sub(3)) at 5 g/kg of substrate to B. juncea plants grown at the Tui mine site confirmed the plant growth chambers studies showing the effectiveness of thio-solutions at enhancing shoot Hg concentrations. Mercury extraction from the field plots yielded a maximum value of 25 g/ha. Mass balance studies revealed that volatilisation is a dominant pathway for Hg removal from the Tui mine site. A preliminary assessment of the risks of volatilisation indicated that enhanced Hg emissions by plants would not harm the local population and the regional environment. Mass balance studies indicated that volatilisation was a dominant pathway for mercury removal. Experiments were carried out in plant growth chambers and in the field to investigate plant-mercury accumulation and volatilisation in the presence of thiosulphate (S 2O 3)-containing solutions. Brassica juncea (Indian mustard) plants grown in Hg-contaminated Tui mine tailings (New Zealand) were enclosed in gastight volatilisation chambers to investigate the effect of ammonium thiosulphate ([NH 4] 2S 2O 3) on the plant-Hg volatilisation process. Application of (NH 4) 2S 2O 3 to substrates increased up to 6 times the Hg concentration in shoots and roots of B. juncea relative to controls. Volatilisation rates were significantly higher in plants irrigated only with water (control) when compared to plants treated with (NH 4) 2S 2O 3. Volatilisation from barren pots (without plants) indicated that Hg in tailings is subject to biological and photochemical reactions. Addition of sodium thiosulphate (Na 2S 2O 3) at 5 g/kg of substrate to B. juncea plants grown at the Tui mine site confirmed the plant growth chambers studies showing the effectiveness of thio-solutions at enhancing shoot Hg concentrations. Mercury extraction from the field plots yielded a maximum value of 25 g/ha. Mass balance studies revealed that volatilisation is a dominant pathway for Hg removal from the Tui mine site. A preliminary assessment of the risks of volatilisation indicated that enhanced Hg emissions by plants would not harm the local population and the regional environment. Mass balance studies indicated that volatilisation was a dominant pathway for mercury removal. |
Author | Robinson, Brett H. Moreno, Fabio N. Stewart, Robert B. Anderson, Chris W.N. |
Author_xml | – sequence: 1 givenname: Fabio N. surname: Moreno fullname: Moreno, Fabio N. email: fabionmoreno@terra.com.br organization: Institute of Natural Resources, Soil and Earth Sciences, Massey University, Private Bag 11222, Palmerston North, New Zealand – sequence: 2 givenname: Chris W.N. surname: Anderson fullname: Anderson, Chris W.N. email: chris@tiaki.co.nz organization: Institute of Natural Resources, Soil and Earth Sciences, Massey University, Private Bag 11222, Palmerston North, New Zealand – sequence: 3 givenname: Robert B. surname: Stewart fullname: Stewart, Robert B. email: r.b.stewart@massey.ac.nz organization: Institute of Natural Resources, Soil and Earth Sciences, Massey University, Private Bag 11222, Palmerston North, New Zealand – sequence: 4 givenname: Brett H. surname: Robinson fullname: Robinson, Brett H. email: brett.robinson@env.ethz.ch organization: HortResearch, Palmerston North, New Zealand |
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Keywords | Base-metal mine tailings Induced plant-Hg accumulation Volatilisation Ammonium thiosulphate ([NH 4] 2S 2O 3) Hg-phytoextraction In situ Soil pollution Phytoextraction Mass balance Decontamination Cruciferae Dicotyledones Volatilization Angiospermae Bioremediation Ammonium Thiosulfates Brassica juncea Pollutant behavior Ammonium thiosulphate ([NH4]2S2O3) Tailings Heavy metal Phytoremediation Industrial waste Environment impact Spermatophyta Biological accumulation Mercury Material balance Mining waste |
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SubjectTerms | ammonium thiosulfate Ammonium thiosulphate ([NH 4] 2S 2O 3) Applied sciences Base-metal mine tailings bioaccumulation Biodegradation, Environmental Biological and medical sciences Biotechnology Brassica juncea Decontamination. Miscellaneous Earth sciences Earth, ocean, space Engineering and environment geology. Geothermics Environment and pollution Exact sciences and technology Freshwater Fundamental and applied biological sciences. Psychology Hg-phytoextraction Induced plant-Hg accumulation Industrial applications and implications. Economical aspects mercury Mercury - metabolism metabolism mine spoil Mining Miscellaneous Mustard Plant Mustard Plant - metabolism New Zealand phytoremediation polluted soils Pollution Pollution, environment geology Soil and sediments pollution Soil Pollutants Soil Pollutants - metabolism soil pollution Thiosulfates Thiosulfates - metabolism Volatilisation Volatilization |
Title | Mercury volatilisation and phytoextraction from base-metal mine tailings |
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